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Neuroplasticity and Spinal Cord Injury: How to Optimize Recovery

man celebrating spinal cord injury recovery through neuroplasticity

For a long time, it was believed that recovery after a spinal cord injury was not possible — but we were wrong. We now know that the spinal cord is extremely adaptable because it is capable of utilizing neuroplasticity.

Neuroplasticity refers to the central nervous system’s ability to rewire its neural circuitry to make adaptive changes. It allows for functions affected by spinal cord injury to be relearned and recovered. However, some conditions must be met for neuroplasticity to occur.

To help you understand how to promote neuroplasticity after spinal cord injury, this article will discuss:

Can Every Individual with a Spinal Cord Injury Utilize Neuroplasticity to Recover?

doctor explaining how important neuroplasticity is for spinal cord injury recovery

To understand neuroplasticity, it’s essential to understand how a spinal cord injury affects the body. The spinal cord serves as the communication pathway between the brain and body. After a spinal cord injury, that communication is disrupted, which can result in motor and sensory deficits.

Spinal cord injuries can be complete or incomplete. A complete spinal cord injury describes when the spinal cord is completely transected. Consequently, brain signals cannot travel past the damage, resulting in the complete loss of sensation and motor control below the level of injury.

In contrast, an incomplete spinal cord injury describes when the spinal cord is only partially damaged, which leaves spared neural pathways. Because connections between the brain and areas below the level of injury are still intact, individuals may have some motor control and/or sensation below their level of injury.

Spared neural pathways are an essential component of spinal cord injury recovery because damaged neurons in the spinal cord are not capable of regeneration. Instead, only healthy, spared neural pathways in the spinal cord can utilize neuroplasticity to make adaptive changes.

As a result, only individuals with incomplete SCIs have the ability to utilize neuroplasticity to recover functions affected by injury. Treatment for complete spinal cord injuries generally focuses on learning compensatory techniques to be as functional as possible and prevent further complications from developing.

In the following section, we’ll address how neuroplasticity works.

How to Promote Neuroplasticity After Spinal Cord Injury

spinal cord injury patient participating in physical therapy to promote neuroplasticity

Neuroplasticity allows the brain and spinal cord to adapt and recover functions affected by injury. The spinal cord can reassign affected functions through spared neural pathways. However, individuals must repetitively stimulate the spinal cord by practicing weakened movements.

Think, “use it or lose it!” Neuroplasticity functions on demand and occurs all the time, not just after injury. It can promote or impede recovery based on how you choose to approach rehabilitation following your spinal cord injury.

Below, we’ll discuss three essential components for promoting neuroplasticity after spinal cord injury: specificity, repetition, and intensity.

1. Specificity

Training specifically is crucial for promoting neuroplasticity after spinal cord injury because each movement you make is attributed to a specific set of neural pathways. Every time you practice a specific movement, it reinforces demand for that function.

Therefore, if you want to recover the ability to walk, you must practice walking. Depending on the severity of your spinal cord injury, you may need to break this up into smaller steps such as strengthening the leg muscles, learning how to stand, shifting your weight, and maintaining balance. Developing these skills individually will help form the building blocks to practice walking again.

The more specific you are with your training, the better the spinal cord gets at perceiving a demand for those functions and rewires itself. Ensuring specific, accurate, good-quality movements is essential, as you don’t want to be promoting adaptation of poor movement patterns.

2. Repetition

Another major factor involved in promoting neuroplasticity after spinal cord injury is performing high repetitions.

Recovering functions affected by a spinal cord injury requires lots of repetition because you’re essentially reteaching your brain, spinal cord, and muscles to work in sync again.

Every time you repeat a movement, you’re strengthening its neural pathways. The stronger the neural pathways become, the easier and more natural the movement becomes.

3. Intensity

Lastly, the intensity of your training helps determine how quickly you recover. Intensity consists of how much resistance, speed, repetitions, time, and effort is put into your recovery.

You want to consistently challenge yourself to stay engaged, but not make the task at hand so overwhelming or frustrating that you want to quit.

Now that you understand how to promote neuroplasticity, let’s discuss the best time to pursue rehabilitation.

Do Neuroplasticity Levels Change Throughout the Course of Recovery?

Physical therapist motivating male patient to walk between cones in hospital to promote neuroplasticity

Following a spinal cord injury, the central nervous system experiences increased neuroplasticity levels for several months as the spinal cord attempts to stabilize itself. This is why individuals often see the most recovery within the first year after their spinal cord injury.

It is recommended to start rehabilitation as soon as possible so that individuals can take advantage of these increased levels of neuroplasticity.

However, it’s also important to understand that the central nervous system never completely runs out of neuroplasticity. While neuroplasticity levels will eventually return to normal, healthy regions of the spinal cord are always capable of making neuroadaptive changes.

As a result, improvements can occur for years after an SCI, as long as individuals continue to pursue recovery.

Understanding Neuroplasticity and Spinal Cord Injury: Key Points

Neuroplasticity is the brain and spinal cord’s ability to rewire its neural circuitry and make neurological adaptations. It allows for functions affected by spinal cord injury to be recovered.

However, because damaged neurons are not capable of healing, only individuals with incomplete SCIs can promote recovery through neuroplasticity.

To optimize the effects of neuroplasticity, individuals must train specifically, repetitively, and intensely. This will help the spinal cord perceive demand for those functions and promote neuroadaptive changes.

While it is often recommended to begin rehabilitation as soon as possible to take advantage of increased neuroplasticity levels after an SCI, the central nervous system never completely runs out of neuroplasticity and is always capable of making activity-dependent adaptations.

We hope this article helped you understand how important neuroplasticity is for spinal cord injury recovery and the best practices to promote it.

Flint Rehab is leading the way in neuro-rehabilitation with products that are backed by research and clinically validated to help you recover more effectively from stroke, TBI, and SCI. Trusted by over 300+ rehab facilities and 10,000+ home customers.

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Do you want to improve mobility after a spinal cord injury?

Depending on the severity of your spinal cord injury, there may be hope for improved mobility. Consistent at-home therapy is key to making this happen.

That’s why Flint Rehab created FitMi, a motion-sensing, gamified home recovery tool designed for neurological injury like SCI.

Here’s what others have said about it:

Say bye-bye to your Physiotherapist

“I purchased this wonderful equipment for the use of spasticity for my right hand. Initially I wasn’t sure if it would work because of the various treatments I tried and also many physiotherapists who tried their level best, but didn’t achieve any positive results.

However after trying FitMi, I could feel that slowly and steadily I am improving. It’s really a great device that minutely takes care of each and every muscle of your affected body part. The biggest plus point is, you can use this device anywhere, anytime with precise exercises that you need and also saves your money and time spent on your physiotherapist.

— Chandrakiran

It’s all about high repetition of therapeutic exercises

FitMi works by encouraging you to practice rehab exercises with high repetition. On average, survivors complete hundreds of repetitions per half hour session.

“Massed practice” like this helps stimulate and rewire the nervous system. While you can achieve massed practice with a written sheet of exercises, it can be tough to stick with it consistently — and consistency is key to recovery.

FitMi helps transform rehab exercises into an engaging, interactive experience. The yellow and blue “pucks” track your movement and provide feedback. All of this comes together for a motivating home therapy program.

A survivor named Tom put it perfectly:

“I believe this device will help me concentrate on making the repetitive actions needed to obtain further movement range in my wrist and hand and arm and therefore rating it with five stars. My occupational therapist recommended to give this a try. I have been using FitMi for just a few weeks. I feel more at ease in flexing.”

If you’d like to learn more about FitMi, click the button below:

ebook with fanned out pages, titled "Rehab Exercises for Spinal Cord Injury Patients"

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